
Vase squeezed and bent rectangle 2 with smooth vertical ribbons 3D print model
cgtrader
This highly detailed, ready-to-print 3D model is perfectly suited for virtual reality applications, real-time rendering, 3D printing, and any computer-generated project requiring high visual accuracy. The model boasts precise measurements and correct real-world scale, making it an ideal choice for architectural interior scenes, visualization, animation, or other creative ventures. Initially created using the powerful 3ds Max 2016 software, this model has been successfully exported to various formats for added versatility. For those seeking further refinement, this 3D model can be subdivided multiple times, effectively increasing its resolution and level of detail. Comprising a single solid geometry object, it is ready to be divided into smaller parts if needed. The TurboSmooth modifier is strategically placed atop the mesh geometry with 2 iterations for optimal smoothing results. Conveniently positioned at the origin of the scene, this model can easily be integrated into new or existing projects. Rendered with Vray 3.0 and featuring simple standard Vray materials without textures, this model showcases crisp, photorealistic quality. It's worth noting that this scene doesn't contain an illumination setup – perfect for designers who prefer to work on their own lighting configuration. Dimensions specifically designed for 3D printing measure at approximately 8.767cm in width, 8.759cm in length, and 23.602cm in height. If needed, this model can be modified or customized according to individual requirements. Please don't hesitate to contact us to discuss potential modifications.
With this file you will be able to print Vase squeezed and bent rectangle 2 with smooth vertical ribbons 3D print model with your 3D printer. Click on the button and save the file on your computer to work, edit or customize your design. You can also find more 3D designs for printers on Vase squeezed and bent rectangle 2 with smooth vertical ribbons 3D print model.